Acknowledged in the industry as a manufacturer and supplier, we are providing our clients with Air Receiver. Used for compressed air storage, our offered ranks are manufactured utilizing quality-assured metals and components that are obtained from accredited vendors of the industry.
Features:
- Abrasion resistance
- Longer service life
- Optimum performance
Specifications:
| Capacity |
Design Pressure |
Work Pressure |
Design Temperature |
Internal Diameter |
Length |
Height |
Weight |
| m³ |
Mpa |
Mpa |
°C |
mm |
mm |
mm |
kg |
| 0.63 |
3.3 |
3 |
100 |
700 |
1800 |
1470 |
655 |
| 0.8 |
3.3 |
3 |
100 |
700 |
2270 |
1470 |
780 |
| 1 |
3.3 |
3 |
100 |
800 |
2200 |
1580 |
950 |
| 1.6 |
3.3 |
3 |
100 |
900 |
2740 |
1680 |
1180 |
Additional Information:
Compressed air receivers, also known as air tanks or air receivers, are commonly used in compressed air systems to store and provide a reserve of compressed air. The sustainability of a compressed air receiver depends on various factors. Here are some considerations:
Energy Efficiency: Compressed air systems can be energy-intensive, and inefficiencies can lead to higher energy consumption and carbon emissions. The sustainability of a compressed air receiver is influenced by the overall efficiency of the compressed air system it is a part of. Well-designed systems with efficient compressors, appropriate storage capacity, and optimized distribution networks can minimize energy waste.
Leakage: Compressed air systems are prone to leaks, which can result in significant energy losses over time. Regular maintenance and monitoring can help identify and fix leaks promptly, ensuring the system operates efficiently and sustainably.
Sizing and Design: Proper sizing and design of the compressed air receiver are crucial for sustainable operation. Oversized receivers can lead to unnecessary energy consumption, while undersized receivers can cause excessive cycling and reduce system efficiency. Designing the receiver to match the system's air demand and considering factors such as pressure fluctuations, air quality requirements, and temperature variations contribute to its sustainability.
Materials and Maintenance: The materials used in constructing the compressed air receiver can impact its sustainability. Choosing durable materials that can withstand the operating conditions and resist corrosion is important. Regular inspections, cleaning, and maintenance practices can extend the life of the receiver and minimize the need for replacements, reducing waste and promoting sustainability.
End-use Efficiency: The sustainability of a compressed air receiver also depends on the efficiency of the equipment and processes utilizing the compressed air. Ensuring proper equipment selection, maintenance, and system design can optimize end-use efficiency and reduce overall energy consumption.
It's important to note that while compressed air systems are widely used, they are not the most energy-efficient means of power transmission. Other energy sources, such as direct electricity or mechanical power, may be more efficient for specific applications. Therefore, assessing the overall energy requirements and considering alternative solutions should be part of a comprehensive sustainability analysis.
In summary, the sustainability of a compressed air receiver relies on factors such as energy efficiency, leakage prevention, appropriate sizing and design, suitable materials, and efficient end-use practices. By considering these factors and implementing good maintenance practices, the sustainability of compressed air receivers and the entire compressed air system can be improved.
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